JP7624368B2 - Silage management method, silage management system, and silage management program - Google Patents

Description

The present invention relates to a silage management method, a silage management system, and a silage management program, and can be suitably used, for example, in a silage management method, a silage management system, and a silage management program that use horizontal silos such as bunker silos.

Horizontal silos such as bunker silos are facilities for fermenting grass to produce silage, which is livestock feed. In relation to the above, Patent Document 1 (JP Patent Publication No. 09-000058) discloses a bunker silo. This bunker silo has a substantially rectangular floor and three side walls connected to the floor at positions corresponding to three of the four sides of the rectangle. While these three side walls are connected to each other, the position corresponding to the remaining side of the rectangle is open, and a transport vehicle can enter from this position from the outside and bring grass into the interior of the bunker silo, which is surrounded by the side walls.

Furthermore, if a horizontal silo such as a bunker silo has multiple compartments separated by side walls, different types of pasture can be brought into each compartment. By blending multiple types of silage produced in this way in appropriate combinations and in appropriate ratios, the quality of the feed can be stabilized. Silage produced in multiple horizontal silos can also be blended.

Japanese Patent Application Publication No. 09-000058

To properly blend silage, it is necessary to manage the silage for each horizontal silo. In other words, for the grass brought into each location in the horizontal silo, it is necessary to accurately record the grass species, the field where it was harvested, the date and time it was harvested, the position in the horizontal silo where it was brought in, the date and time it was brought into the horizontal silo, the type of additives used to ferment the grass, and so on. However, it is a cumbersome task for users to record such information on paper or to review it later.

In view of the above circumstances, one of the objectives of the present disclosure is to provide a silage management method, a silage management system, and a silage management program that can efficiently manage silage in horizontal silos. Other issues and novel features will become apparent from the description of this specification and the accompanying drawings.

Below, the means for solving the problem are explained using the numbers used in (Mode for carrying out the invention). These numbers are added to clarify the correspondence between the description in (Claims) and (Mode for carrying out the invention). However, these numbers should not be used to interpret the technical scope of the invention described in (Claims).

According to one embodiment, the silage management method includes measuring the position of a transport vehicle (3) that transports grass from a field (2) where the grass is harvested to a horizontal silo (4) where the grass is delivered at multiple times, and acquiring positioning information that associates the measured position with the measurement time (S102). The silage management method further includes identifying field information that identifies the field (2) based on the positioning information (S103), identifying grass species information that identifies the type of grass based on the field information (S104), and identifying delivery information (S105) that identifies the horizontal silo (4), the delivery position in the horizontal silo (4) where the grass was delivered, and the delivery time when the grass was delivered to the delivery position, based on the positioning information. The silage management method further includes managing silage information that links the field information, grass species information, and delivery information (S106).

According to one embodiment, the silage management system (1) includes a positioning unit (312), a field information identification unit (614), a grass species information identification unit (615), a delivery information identification unit (616), and a silage information management unit (617). The positioning unit (312) measures the position of a transport vehicle (3) that transports grass from a field (2) where the grass is harvested to a horizontal silo (4) where the grass is delivered at multiple times, and acquires positioning information that associates the measured position with the measurement time. The field information identification unit (614) identifies field information that identifies the field (2) based on the positioning information. The grass species information identification unit (615) identifies grass species information that identifies the type of grass based on the field information. The delivery information identification unit (616) identifies delivery information that identifies the horizontal silo (4), the delivery position of the grass in the horizontal silo (4), and the delivery time when the grass was delivered to the delivery position based on the positioning information. The silage information management unit (615) manages silage information that links the field information, grass species information, and delivery information.

According to one embodiment, the silage management program is executed to realize the processing of the silage management device. This processing includes measuring the position of the transport vehicle (3) that transports the grass from the field (2) where the grass is harvested to the horizontal silo (4) where the grass is brought in at multiple times, and acquiring positioning information that associates the measured position with the measurement time (S102). This processing further includes identifying field information that identifies the field (2) based on the positioning information (S103), identifying grass species information that identifies the type of grass based on the field information (S104), and identifying delivery information (S105) that identifies the horizontal silo (4), the delivery position in the horizontal silo (4) where the grass was brought in, and the delivery time when the grass was brought in to the delivery position, based on the positioning information. This process further includes managing silage information that links field information, grass species information, and delivery information (S106).

According to one embodiment, silage in a horizontal silo can be managed efficiently.

FIG. 1 is a diagram showing an example of a configuration of a silage management system according to an embodiment. FIG. 2 is a block circuit diagram showing an example of the configuration of the vehicle-mounted terminal according to the embodiment. FIG. 3 is a block circuit diagram showing an example of a configuration of a silage management device according to an embodiment. FIG. 4 is a block circuit diagram showing an example of a configuration of an external terminal according to an embodiment. FIG. 5 is a flowchart showing an example of a configuration of a silage management method according to an embodiment. FIG. 6A is a diagram illustrating an example of a state of a bunker silo according to one embodiment. FIG. 6B is a diagram illustrating an example of a state of a bunker silo according to one embodiment. FIG. 6C is a diagram illustrating an example of a state of a bunker silo according to one embodiment. FIG. 6D illustrates an example of a state of a bunker silo according to one embodiment. FIG. 6E illustrates an example state of a bunker silo according to one embodiment.

The following describes the embodiments for implementing the silage management method, silage management system, and silage management program disclosed herein with reference to the attached drawings.

(Embodiment)
An example of a configuration of a silage management system 1 according to an embodiment will be described with reference to Fig. 1. The silage management system 1 includes an in-vehicle terminal mounted on a transport vehicle 3, and a silage management device 6. The silage management system 1 may further include an external terminal 7.

The transport vehicle 3 transports the grass harvested in the field 2 from the field 2 to a bunker silo 4, which is a type of horizontal silo, and delivers it into one of the sections of the bunker silo 4. The on-board terminal mounted on the transport vehicle 3 measures the position of the transport vehicle 3 at multiple times, acquires positioning information that associates the measured position with the measurement time, and transmits the positioning information to the silage management system 1. Hereinafter, in this disclosure, a case where the bunker silo 4 is used as an example of a horizontal silo will be described, but this disclosure is not limited to this example and can be applied to other types of horizontal silos. Another example of a horizontal silo is a stack silo. A stack silo is not a fixed type like the bunker silo 4, but is a temporary silo that can be installed in any location and of any size, and has the same functions as the bunker silo 4.

The silage management system 1 receives and acquires positioning information by wireless and/or wired communication via the network 5. The silage management device 6 manages silage information that links and compiles information related to silage.

If necessary, the external terminal 7 accesses the silage management device 6 via wireless and/or wired communication over the network 5 to view the silage information.

With reference to FIG. 2, an example of the configuration of the in-vehicle terminal 30 according to one embodiment will be described. The in-vehicle terminal 30 includes a bus 300, a calculation device 31, a storage device 32, a positioning device 33, and a communication device 34. The bus 300 connects the calculation device 31, the storage device 32, the positioning device 33, and the communication device 34 so that they can communicate with each other.

The calculation device 31 includes a vehicle information acquisition unit 311, a positioning unit 312, and a communication unit 313. The storage device 32 includes an in-vehicle terminal program storage unit 321 that stores an in-vehicle terminal program. The calculation device 31 executes the in-vehicle terminal program to realize the processing of the vehicle information acquisition unit 311, the positioning unit 312, and the communication unit 313. In other words, the vehicle information acquisition unit 311, the positioning unit 312, and the communication unit 313 are each a virtual functional block that realizes processing through cooperation between the calculation device 31 and the in-vehicle terminal program. The processing of these functional blocks will be described later.

The in-vehicle terminal program may be read from the recording medium 320 and stored in the in-vehicle terminal program storage unit 321. The recording medium 320 may be a non-transitory and tangible medium.

The positioning device 33 receives positioning signals from positioning satellites of the Global Navigation Satellite System (GNSS), etc.

The communication device 34 communicates with external devices, including the silage management device 6, by wireless communication and/or wired communication via the network 5. The in-vehicle terminal program may be received from the outside via the communication device 34 and stored in the in-vehicle terminal program storage unit 321.

With reference to FIG. 3, an example of the configuration of a silage management device 6 according to one embodiment will be described. The silage management device 6 includes a bus 60, a computing device 61, a storage device 62, and a communication device 63. The bus 60 connects the computing device 61, the storage device 62, and the communication device 63 so that they can communicate with each other.

The calculation device 61 includes a vehicle information acquisition unit 611, a communication unit 612, a positioning information acquisition unit 613, a field information identification unit 614, a grass species information identification unit 615, a delivery information identification unit 616, and a silage information management unit 617. The storage device 62 includes a silage management program storage unit 621 that stores a silage management program, a field database 622, and a silo database 623. The calculation device 61 executes the silage management program to realize the processing of the vehicle information acquisition unit 611, the communication unit 612, the positioning information acquisition unit 613, the field information identification unit 614, the grass species information identification unit 615, the delivery information identification unit 616, and the silage information management unit 617. In other words, the vehicle information acquisition unit 611, the communication unit 612, the positioning information acquisition unit 613, the farm field information identification unit 614, the grass species information identification unit 615, the delivery information identification unit 616, and the silage information management unit 617 are virtual function blocks that realize processing by the computing device 61 and the silage management program working together. The processing of these function blocks will be described later.

The silage management program may be read from the recording medium 620 and stored in the silage management program storage unit 621. The recording medium 620 may be a non-transitory and tangible medium.

The field database 622 stores information about field 2. The information about field 2 includes information indicating the location of field 2 and information indicating the type of grass harvested in field 2.

The silo database 623 stores information about the bunker silo 4. The information about the bunker silo 4 includes information about the location of the bunker silo 4 and information about the type of additives used in the bunker silo 4.

The communication device 63 communicates with external devices including the in-vehicle terminal 30 and the external terminal 7 by wireless communication and/or wired communication via the network 5. The silage management program may be received from the outside via the communication device 63 and stored in the silage management program storage unit 621.

With reference to FIG. 4, an example configuration of an external terminal 7 according to an embodiment will be described. The external terminal 7 includes a bus 70, a computing device 71, a storage device 72, a communication device 73, and an input/output device 74. The bus 70 connects the computing device 71, the storage device 72, the communication device 73, and the input/output device 74 so that they can communicate with each other.

The arithmetic device 71 includes a communication unit 711 and an input/output unit 712. The storage device 72 includes an external terminal program storage unit 721 that stores an external terminal program. The arithmetic device 71 realizes the processing of the communication unit 711 and the input/output unit 712 by executing the external terminal program. In other words, the communication unit 711 and the input/output unit 712 are virtual functional blocks that realize processing by the arithmetic device 71 and the external terminal program working together. The processing of these functional blocks will be described later.

The external terminal program may be read from the recording medium 720 and stored in the external terminal program storage unit 721. The recording medium 720 may be a non-transitory and tangible medium.

The communication device 73 communicates with external devices including the silage management device 6 by wireless communication and/or wired communication via the network 5. An external terminal program may be received from the outside via the communication device 73 and stored in the external terminal program storage unit 721.

The input/output device 74 includes an input device and an output device. The input device includes, for example, a button, a microphone, etc. The output device includes, for example, a display device, a speaker, a lamp, etc. The input/output device 74 may include a touch panel device that functions as an input device and an output device.

With reference to FIG. 5, a configuration example of a silage management method according to one embodiment will be described. In other words, an operation example of a silage management system 1 according to one embodiment will be described.

When the flowchart of FIG. 5 starts, step S101 is executed. In step S101, the arithmetic device 31 of the in-vehicle terminal 30 executes the in-vehicle terminal program to realize the processing of the vehicle information acquisition unit 311, and the vehicle information acquisition unit 311 acquires vehicle information of the transport vehicle 3. The vehicle information includes, for example, vehicle identification information that identifies the transport vehicle 3, vehicle type identification information that identifies the vehicle type of the transport vehicle 3, and load information that indicates the load of grass that the transport vehicle 3 can transport at one time. The vehicle information may be stored in advance in, for example, the storage device 32. After that, the arithmetic device 31 of the in-vehicle terminal 30 further executes the in-vehicle terminal program to realize the processing of the communication unit 313, and the communication unit 313 controls the communication device 34 to transmit the vehicle information to the silage management device 6.

At this time, the calculation device 61 of the silage management device 6 executes the silage management program to realize the processing of the communication unit 612, and the communication unit 612 controls the communication device 63 to receive the vehicle information. After that, the calculation device 61 of the silage management device 6 further executes the silage management program to realize the processing of the vehicle information acquisition unit 611, and the vehicle information acquisition unit 611 acquires the vehicle information and stores it in the storage device 62.

After step S101, step S102 is executed. In step S102, the arithmetic device 31 of the on-board terminal 30 executes the on-board terminal program to realize the processing of the positioning unit 312, and the positioning unit 312 controls the positioning device 33 to acquire positioning information of the transport vehicle 3. More specifically, the positioning unit 312 acquires position information representing the position of the on-board terminal 30 based on a positioning signal received by the positioning device 33 from a GNSS positioning satellite or the like. Here, the position of the on-board terminal 30 is substantially the same as the position of the transport vehicle 3 on which the on-board terminal 30 is mounted. The positioning unit 312 acquires positioning information by measuring the position at multiple times and associating the measured position with the measurement time at which the measurement was performed. Thereafter, the arithmetic device 31 of the on-board terminal 30 further executes the on-board terminal program to realize the processing of the communication unit 313, and the communication unit 313 controls the communication device 34 to transmit the positioning information to the silage management device 6.

At this time, the arithmetic device 61 of the silage management device 6 executes the silage management program to realize the processing of the communication unit 612, and the communication unit 612 controls the communication device 63 to receive the positioning information. After that, the arithmetic device 61 of the silage management device 6 further executes the silage management program to realize the processing of the positioning information acquisition unit 613, and the positioning information acquisition unit 613 acquires the positioning information and stores it in the storage device 62.

After step S102, step S103 is executed. In step S103, the calculation device 61 of the silage management device 6 executes the silage management program to realize the processing of the field information identification unit 614, and the field information identification unit 614 identifies the field information of the field 2. More specifically, the field information identification unit 614 refers to the field database 622 to determine whether the position information of any of the fields included in the field database 622 is included in the positioning information. For example, when the distance from any of the position information included in the positioning information to the position information of any of the fields is shorter than a predetermined threshold, the field information identification unit 614 determines that the position information of the field is included in the positioning information. If it is determined that the position information of any of the fields is included in the positioning information, the field information identification unit 614 identifies the field located at the position indicated by this position information as the field 2 from which the transport vehicle 3 transported the grass. Furthermore, the field information identification unit 614 extracts the field information of the identified field 2 from the field database 622. In this way, the field information identification unit 614 identifies the field information of field 2.

After step S103, step S104 is executed. In step S104, the calculation device 61 of the silage management device 6 executes the silage management program to realize the processing of the grass species information identification unit 615, and the grass species information identification unit 615 identifies the grass species information of the grass transported by the transport vehicle 3. More specifically, the grass species information identification unit 615 extracts grass species information harvested in field 2 from the field information of field 2 extracted in step S103. In this way, the grass species information identification unit 615 identifies the grass species information of the grass.

After step S104, step S105 is executed. In step S105, the calculation device 61 of the silage management device 6 executes the silage management program to realize the processing of the delivery information identification unit 616, and the delivery information identification unit 616 identifies delivery information related to the delivery of the grass to the bunker silo 4 by the transport vehicle 3. The delivery information includes, for example, information identifying the bunker silo 4 to which the grass was delivered, information identifying the delivery position in the bunker silo 4 to which the grass was delivered, information identifying the delivery time when the grass was delivered to this delivery position, and delivery amount information indicating the amount of grass delivered to this delivery position. The delivery amount of grass may be estimated based on the load capacity of the transport vehicle 3, and for example, the delivery amount may be the product of the load capacity multiplied by a predetermined ratio. The delivery information may further include additive information indicating the type of additive used for the delivered grass.

The method by which the delivery information identification unit 616 identifies information identifying the bunker silo 4 into which the grass has been delivered will be described. The delivery information identification unit 616 refers to the silo database 623 and determines whether the position information of any of the bunker silos 4 included in the silo database 623 is included in the positioning information. For example, when the distance from the positioning position represented by any of the position information included in the positioning information to the bunker silo position represented by the position information of any of the bunker silos 4 is shorter than a predetermined threshold, the delivery information identification unit 616 determines that the position information of that bunker silo 4 is included in the positioning information. If it is determined that the position information of any of the bunker silos is included in the positioning information, the delivery information identification unit 616 identifies the bunker silo 4 located at the position represented by this position information as the bunker silo 4 into which the transport vehicle 3 has delivered the grass. In this way, the delivery information identification unit 616 identifies information identifying the bunker silo 4 into which the grass has been delivered.

The method by which the delivery information identification unit 616 identifies information that identifies the delivery position in the bunker silo 4 where the grass was delivered will be described. The delivery information identification unit 616 extracts location information that indicates the position inside the bunker silo 4 from the location information included in the positioning information. The delivery information identification unit 616 further extracts stop position information that indicates the position where the transport vehicle 3 stopped from the extracted location information. In one embodiment, it is assumed that the grass was unloaded at the position where the transport vehicle 3 stopped inside the bunker silo 4, and the position indicated by the extracted stop position information is identified as the delivery position in the bunker silo 4 where the grass was delivered. Inside the bunker silo 4, grass may be delivered to multiple delivery positions, and the grass delivered to these multiple delivery positions may be harvested from different fields 2 or of different types. However, it is preferable that grass delivered to the same delivery position multiple times is the same type of grass harvested in the same field 2.

The method by which the delivery information identification unit 616 identifies information identifying the delivery time when the grass was delivered to the delivery position will be described. When the delivery information identification unit 616 extracts stop position information representing a position identified as the delivery position, it further extracts information representing the measurement time associated with this stop position information from the positioning information. This measurement time is called the stop time, and the information representing this measurement time is called the stop time information. In one embodiment, the stop time extracted in this manner is identified as the delivery time when the transport vehicle 3 unloaded the grass inside the bunker silo 4.

The following describes a method by which the delivery information identification unit 616 identifies additive information that indicates the type of additives used in the bunker silo 4. After identifying information that identifies the bunker silo 4, the delivery information identification unit 616 refers to the silo database 623 and extracts additive information on the additives used in the identified bunker silo 4. An example of an additive that ferments grass to produce silage is lactic acid bacteria.

The operation of the transport vehicle 3 to deliver different types of grass to multiple delivery positions inside the bunker silo 4 will be explained in detail after explaining the flowchart in Figure 5.

After step S105, step S106 is executed. In step S106, the calculation device 61 of the silage management device 6 executes a silage management program to realize the processing of the silage information management unit 617, and the silage information management unit 617 manages the silage information. The silage information includes the field information identified in step S103, the grass species information identified in step S104, and the delivery information identified in step S105, all linked together. The silage information management unit 617 stores the silage information configured in this way in the storage device 62.

After step S106, step S107 is executed. Step S107 may be executed after the grass is sufficiently fermented. In step S107, the calculation device 61 of the silage management device 6 executes the silage management program to realize the processing of the silage information management unit 617, and the silage information management unit 617 outputs the combination of grasses for producing silage. More specifically, after the multiple grasses brought into the multiple delivery positions inside the bunker silo 4 are sufficiently fermented, some or all of these multiple grasses can be combined and blended in a predetermined ratio to produce silage with stable quality. The silage information management unit 617 calculates the combination and ratio of grasses for producing silage with the desired quality based on the field information, grass species information, and delivery information linked as silage information in step S106, and stores the combination and ratio in the storage device 62.

Then, the arithmetic device 61 of the silage management device 6 executes the silage management program to realize the processing of the communication unit 612, and the communication unit 612 outputs blend information indicating the combination and ratio of grasses and transmits it to the external terminal 7. At this time, the arithmetic device 71 of the external terminal 7 executes the external terminal program to realize the processing of the communication unit 711, and the communication unit 711 receives the blend information and stores it in the storage device 72. The arithmetic device 71 of the external terminal 7 then executes the external terminal program to realize the processing of the input/output unit 712, and the input/output unit 712 controls the input/output device 74 to output the blend information. As an example, the input/output device 74 is a touch panel device that displays the blend information.

After step S107, step S108 is executed. In step S108, the user blends the grass according to the combination and ratio calculated in step S107. In this way, silage of the desired quality can be stably produced using multiple grasses brought into multiple delivery positions of the bunker silo 4. The user may blend the grasses and produce the silage at a TMR (Total Mixed Ration) center.

After step S108, the flowchart in FIG. 5 ends. After step S108, the processing of the flowchart in FIG. 5 may return to step S101.

As a variation of the silage management method described above, after step S106, the process of the flowchart in FIG. 5 may return to step S101. In this way, the process in which the transport vehicle 3 transports the grass from the field 2 to the bunker silo 4 multiple times may be managed in a centralized manner.

As a supplementary explanation of step S105 in the flowchart of Figure 5 described above, the method by which the transport vehicle 3 delivers multiple pieces of grass to multiple delivery positions in the bunker silo 4 will be described with reference to Figures 6A to 6E.

As shown in FIG. 6A, the bunker silo 4 may have multiple compartments 21A, 21B separated by walls 20. The transport vehicle 3 moves backward along the travel path 8A from the entrance of the compartment 21A of the bunker silo 4 to a specified loading area 9A, stops, and unloads the loaded grass by tilting the loading platform. In this way, the grass is loaded into the loading area 9A. At this time, the loading position that is measured may be specified as, for example, the end of the travel path 8A that contacts the loading area 9A or a position in the vicinity thereof. Note that when unloading the grass from the loading platform, the transport vehicle 3 may move forward and backward to perform this task smoothly. Therefore, the loading position may be specified on the condition that the travel speed of the transport vehicle 3 is slower than a predetermined threshold value. After unloading the grass, the transport vehicle 3 may return to the field 2 to transport more grass.

As shown in FIG. 6B, the transport vehicle 3 again moves backwards along the travel path 8B from the entrance/exit of the section 21A of the bunker silo 4, this time unloading the grass into a specified loading area 9B. Here, the loading area 9B is an area obtained by extending the loading area 9A where the grass was previously unloaded in the longitudinal direction of the section 21A, and may include the loading area 9A. Since the grass brought in this time and the grass brought in last time are mixed in the loading area 9B, it is preferable that they are the same grass species harvested in the same field 2. However, the transport vehicle 3 that brought in this time and the transport vehicle 3 that brought in last time do not necessarily have to be the same transport vehicle 3. After unloading the grass, the transport vehicle 3 may return to the field 2 to transport more grass.

As shown in FIG. 6C, by the transport vehicle 3 repeatedly bringing in grass, the area where the same type of grass is brought in may be expanded in the width direction of the section 21A, such as the delivery area 9C. At this time, the travel path 8C of the transport vehicle 3 may be shifted in the width direction of the section 21A compared to the travel paths 8A and 8B.

As shown in FIG. 6D, grass harvested in a different field 2 from the loading area 9C or a different type of grass from the loading area 9C may be loaded into a loading area 10A different from the loading area 9C in the same section 21A of the same bunker silo 4. In this case, to prevent the grass in the loading areas 9C and 10A from mixing, the transport vehicle 3 moves from an entrance/exit away from the loading area 9C of the section 21A along the travel path 8D away from the loading area 9C to the loading area 10A and unloads the grass.

As shown in FIG. 6E, by the transport vehicle 3 repeatedly bringing in different pasture, the area into which the different pasture has been brought in may be expanded in the longitudinal and width directions of the section 21A, like the delivery area 10B. At this time, the travel path 8E of the transport vehicle 3 may be shifted in the width direction of the section 21A compared to the travel path 8D.

By transporting grass in this manner, multiple types of grass can be transported to the same section 21A of the same bunker silo 4. As described above, the transport vehicle 3 automatically records the location and time at which the grass is unloaded, so it is possible to automatically manage which portion of the grass transported to the same section 21A is which type of grass and which field 2 it was harvested in.

Additives such as lactic acid bacteria are added to the brought-in pasture, which is then covered with a plastic sheet and weights are placed on it to remove the air and promote anaerobic fermentation.

As described above, according to one embodiment of the silage management method, silage management system 1, and silage management program, information such as the field 2 where the grass was harvested, the type of grass, the bunker silo 4 where the grass was brought in and the location of the area inside it, the time the grass was brought in, and additives added to the grass are automatically acquired and then linked together for management. This allows for efficient management to produce silage of consistent quality.

The invention made by the inventor has been specifically described above based on the embodiment, but it goes without saying that the present invention is not limited to the embodiment and can be modified in various ways without departing from the gist of the invention. Furthermore, the features described in the embodiment can be freely combined as long as they are not technically inconsistent.

REFERENCE SIGNS LIST 1 Silage management system 2 Field 20 Wall 21A, 21B Section 3 Transport vehicle 30 Vehicle-mounted terminal 300 Bus 31 Calculation device 311 Vehicle information acquisition unit 312 Positioning unit 313 Communication unit 32 Storage device 320 Recording medium 321 Vehicle-mounted terminal program storage unit 33 Positioning device 34 Communication device 4 Bunker silo (horizontal silo)
Description of the Reference Number 5 Network 6 Silage management device 60 Bus 61 Arithmetic device 611 Vehicle information acquisition unit 612 Communication unit 613 Positioning information acquisition unit 614 Farm field information identification unit 615 Grass species information identification unit 616 Delivery information identification unit 617 Silage information management unit 62 Storage device 620 Recording medium 621 Silage management program storage unit 622 Farm field database 623 Silo database 63 Communication device 7 External terminal 70 Bus 71 Arithmetic device 711 Communication unit 712 Input/output unit 72 Storage device 720 Recording medium 721 External terminal program storage unit 73 Communication device 74 Input/output device 8A, 8B, 8C, 8D, 8E Movement route 9A, 9B, 9C Delivery area 10A, 10B Delivery area

Claims (9)

Measure the position of a transport vehicle that transports the grass from a field where the grass is harvested to a horizontal silo into which the grass is delivered at a plurality of times, and acquire positioning information that associates the measured position with the measurement time;
Identifying field information that identifies the field based on the positioning information;
Identifying grass species information that identifies the type of grass based on the field information;
Identifying delivery information that identifies the horizontal silo, a delivery position in the horizontal silo where the grass was delivered, and a delivery time at which the grass was delivered to the delivery position based on the positioning information;
Managing silage information linking the field information, the grass species information, and the delivery information ,
Identifying the delivery information includes:
extracting stop position information indicating a stop position at which the transport vehicle completes reverse movement within the horizontal silo from the positioning information;
Identifying the carry-in position based on the stop position information;
Includes
Silage management methods. In the silage management method according to claim 1 ,
Identifying the delivery information includes:
Extracting stop time information representing a stop time associated with the stop position of the transport vehicle from the positioning information;
and identifying the delivery time based on the stop time information. In the silage management method according to claim 1 or 2 ,
Identifying the delivery information includes:
Referencing a silo database including additive information indicative of the types of additives used on the grass in the horizontal silo;
extracting the additive information used in the horizontal silo from the silo database;
Managing the silage information includes:
The silage management method further includes linking the additive information to the silage information. In the silage management method according to any one of claims 1 to 3 ,
The method further includes acquiring vehicle information including information representing a load of the transport vehicle;
Identifying the delivery information includes:
The silage management method further includes identifying the delivery information, which further identifies delivery amount information representing a weight of the grass delivered to the delivery location, based on the vehicle information. In the silage management method according to any one of claims 1 to 4 ,
Identifying the grass species information includes:
Referencing a farm field database including information representative of the type of grass cultivated in the farm field;
and extracting the grass species information of the grass harvested in the field from the field database. In the silage management method according to any one of claims 1 to 5 ,
Managing the silage information includes:
The silage management method further includes, when there are a plurality of the delivery positions within the horizontal silo and the fields in which the grass delivered to each of the plurality of delivery positions was harvested are different, distinguishing and managing the plurality of pieces of silage information associated with the plurality of delivery positions, respectively. Measure the position of a transport vehicle that transports the grass from a field where the grass is harvested to a horizontal silo into which the grass is delivered at a plurality of times, and acquire positioning information that associates the measured position with the measurement time;
Identifying field information that identifies the field based on the positioning information;
Identifying grass species information that identifies the type of grass based on the field information;
Identifying delivery information that identifies the horizontal silo, the delivery position in the horizontal silo where the grass was delivered, and the delivery time at which the grass was delivered to the delivery position based on the positioning information;
Managing silage information linking the field information, the grass species information, and the carrying-in information;
Calculating and outputting a combination of the plurality of grasses based on the plurality of silage information so as to satisfy a predetermined condition by blending the combined plurality of grasses;
blending a plurality of said grasses based on said combination; and
Silage management methods, including : a positioning unit that measures the position of a transport vehicle that transports the grass from a field where the grass is harvested to a horizontal silo into which the grass is brought in at a plurality of times and acquires positioning information that associates the measured position with the measurement time;
a field information identifying unit that identifies field information for identifying the field based on the positioning information;
a grass species information identification unit that identifies grass species information that identifies the type of grass based on the farm field information;
a delivery information identification unit that identifies delivery information that identifies the horizontal silo, the delivery position of the grass in the horizontal silo, and the delivery time when the grass was delivered to the delivery position based on the positioning information;
A silage information management unit that manages silage information linked to the field information, the grass species information, and the carrying-in information ,
The delivery information identification unit,
extracting stop position information indicating a stop position at which the transport vehicle completes reverse movement within the horizontal silo from the positioning information;
The carry-in position is identified based on the stop position information.
Silage management systems. A silage management program that realizes processing of a silage management device by executing the program,
The process comprises:
Measure the position of a transport vehicle that transports the grass from a field where the grass is harvested to a horizontal silo into which the grass is delivered at a plurality of times, and acquire positioning information that associates the measured position with the measurement time;
Identifying field information that identifies the field based on the positioning information;
Identifying grass species information that identifies the type of grass based on the field information;
Identifying delivery information that identifies the horizontal silo, the delivery position of the grass in the horizontal silo, and the delivery time when the grass was delivered to the delivery position based on the positioning information;
Managing silage information linking the field information, the grass species information, and the delivery information ,
Identifying the delivery information includes:
extracting stop position information indicating a stop position at which the transport vehicle completes reverse movement within the horizontal silo from the positioning information;
Identifying the carry-in position based on the stop position information;
Includes
Silage management programs.

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